A package delivery drone comprises at least one propeller for generating lift and an article containment area for containing an article to be carried by the drone. The floor of the article containment area comprises a dynamic support surface for supporting the article and allowing the article to move into, out of and through the article containment area. The package delivery drone interfaces with a docking station having a shelf for exchanging packages with the drone.
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2. The system of claim 1, wherein the first coupling element comprises one of a bar, a hook and a magnet.
A system for coupling components in a modular assembly includes a first coupling element designed to engage with a second coupling element to securely connect two or more components. The first coupling element can be configured as a bar, a hook, or a magnet, allowing for versatile attachment mechanisms. The bar provides a rigid connection, the hook enables quick engagement and disengagement, and the magnet offers a non-permanent yet strong attachment. The second coupling element is structured to complement the first coupling element, ensuring a stable and precise fit. This modular coupling system is particularly useful in applications requiring adaptable, reusable, or easily adjustable connections, such as in furniture, construction, or mechanical assemblies. The design allows for quick assembly and disassembly without specialized tools, reducing setup time and maintenance costs. The use of different coupling types (bar, hook, magnet) provides flexibility in choosing the most suitable connection method based on the specific requirements of the application, such as load-bearing capacity, ease of use, or reversibility. The system ensures alignment and stability between connected components, preventing misalignment or detachment during operation.
3. The system of claim 1, wherein the docking cones include charging contacts and the receptacles include pins for supplying power to the drone.
This invention relates to a drone docking system designed to facilitate automated charging and secure docking of drones. The system addresses the challenge of efficiently recharging drones in the field, particularly for applications requiring continuous operation such as surveillance, delivery, or inspection. The docking system includes multiple docking cones and corresponding receptacles that enable precise alignment and connection between the drone and the charging station. The docking cones are equipped with charging contacts, while the receptacles contain pins that supply electrical power to the drone. This configuration ensures reliable power transfer while maintaining structural stability during the docking process. The system may also incorporate alignment mechanisms to guide the drone into the correct position for seamless charging. The overall design aims to minimize downtime and enhance operational efficiency by automating the recharging procedure, reducing the need for manual intervention. The invention is particularly useful in environments where drones must operate for extended periods without frequent human assistance.
4. The system of claim 1, wherein the dynamic support surface comprises a conveyor belt trained about a conveyor frame and forming the bottom of the article containment area.
This invention relates to a system for handling articles, particularly for stabilizing and supporting items during processing or transport. The system addresses the challenge of securely containing and managing articles in a controlled environment, such as in manufacturing, packaging, or logistics applications. The core of the system includes a dynamic support surface designed to adapt to the movement and positioning of articles within a containment area. This support surface is implemented as a conveyor belt that is trained around a conveyor frame, effectively forming the bottom boundary of the article containment area. The conveyor belt can be driven to move articles within the containment area, allowing for automated transport, sorting, or positioning. The system may also include additional features such as adjustable sidewalls or sensors to further enhance article containment and control. The dynamic nature of the conveyor belt support surface enables efficient handling of various article types and sizes, improving operational flexibility and throughput in industrial settings.
5. The system of claim 4, wherein the drone further comprises one or more gates that can be activated to open and close the article containment area.
A system for managing articles using a drone includes a containment area for holding articles during transport. The drone is equipped with one or more gates that can be selectively activated to open and close the containment area. These gates control access to the containment area, allowing articles to be loaded or unloaded as needed. The gates may be mechanically or electronically operated, ensuring secure containment during flight while enabling efficient transfer of articles at designated locations. This design enhances the drone's functionality for tasks such as delivery, inspection, or environmental monitoring, where controlled access to the payload is essential. The gates may be integrated with sensors or actuators to automate opening and closing based on predefined conditions, such as proximity to a delivery point or user commands. The system ensures safe and reliable handling of articles, reducing the risk of loss or damage during transport. The drone may also include additional features, such as navigation systems or communication modules, to support autonomous or remote-controlled operation. This invention addresses challenges in payload management for drones, particularly in applications requiring secure and controlled access to transported items.
6. The system of claim 4, wherein the docking station includes a driver for driving the conveyor belt.
A system for automated material handling includes a docking station designed to interface with a mobile robot. The docking station is equipped with a conveyor belt mechanism to facilitate the transfer of items between the robot and the station. The conveyor belt is driven by an integrated driver, such as a motor or actuator, which controls the movement of the belt to ensure efficient and precise item handling. The docking station may also include alignment features to ensure proper positioning of the robot during loading or unloading operations. The conveyor belt can be configured to move items in one or both directions, allowing for bidirectional transfer. The system may further include sensors or feedback mechanisms to monitor the conveyor belt's operation and adjust its speed or position as needed. This design enhances automation in logistics, warehousing, or manufacturing environments by streamlining the transfer of goods between mobile robots and stationary docking stations. The driver ensures reliable and controlled movement of the conveyor belt, improving the overall efficiency and accuracy of material handling processes.
7. The system of claim 1, wherein the shelf comprises a conveyor.
A system for automated material handling in warehouses or distribution centers addresses inefficiencies in inventory management, order fulfillment, and space utilization. The system includes a shelf structure designed to optimize storage and retrieval processes. In one configuration, the shelf incorporates a conveyor mechanism to facilitate automated movement of items. The conveyor can transport goods horizontally or vertically, enabling dynamic reconfiguration of storage space based on demand. This reduces manual labor and speeds up order processing. The shelf may also integrate with robotic arms or automated guided vehicles for further automation. Sensors and control systems monitor inventory levels and coordinate movements, ensuring accurate tracking and minimizing errors. The conveyor-equipped shelf enhances throughput by allowing continuous flow of items without manual intervention, improving operational efficiency in high-volume environments. The system is particularly useful in logistics hubs where rapid order fulfillment is critical.
8. The system of claim 1, wherein the docking station comprises a window in a building.
A system for integrating a docking station into a building structure to facilitate the connection and interaction of devices. The docking station is embedded within a window of the building, providing a seamless and space-efficient solution for device connectivity. The docking station includes a housing that is integrated into the window frame or glass, allowing devices such as smartphones, tablets, or other electronic devices to be securely mounted and connected. The system ensures stable positioning and alignment of the device with the docking station, enabling reliable data transfer, charging, or other functional interactions. The window-integrated design optimizes space utilization, particularly in environments where desk or counter space is limited, such as offices, homes, or public areas. The docking station may include mechanical or magnetic coupling mechanisms to securely hold the device in place while allowing easy attachment and detachment. Additionally, the system may incorporate wireless charging capabilities, data ports, or other interfaces to support various device functionalities. The integration of the docking station into the window structure enhances aesthetics and functionality, providing a discreet and efficient solution for device management in modern buildings.
9. The system of claim 1, wherein the frame and propeller are formed in a first module and the article containment area is formed in a second module coupled to the first module to form the drone.
This invention relates to modular drone design, specifically addressing the challenge of assembling and maintaining drones with interchangeable components. The system includes a drone with a frame and propeller assembly integrated into a first module, and a separate article containment area formed in a second module. The two modules are coupled together to form the complete drone. The first module provides structural support and propulsion, while the second module houses payloads or cargo. This modular approach allows for easier customization, repair, and replacement of components without disassembling the entire drone. The design simplifies manufacturing by separating functional elements into distinct, interchangeable units. The coupling mechanism between the modules ensures structural integrity while allowing for quick assembly and disassembly. This modularity enhances flexibility in drone configurations, enabling users to adapt the drone for different tasks by swapping modules as needed. The invention improves efficiency in drone production, maintenance, and operation by reducing downtime and simplifying component upgrades.
10. The system of claim 1, wherein the first coupling element includes a docking bar and the second coupling element comprises hooks extending from a vertical member for receiving the docking bar.
This invention relates to a coupling system for connecting two structures, such as a trailer and a towing vehicle. The problem addressed is the need for a secure, easily engageable coupling mechanism that ensures proper alignment and connection between the structures. The system includes a first coupling element attached to one structure and a second coupling element attached to the other structure. The first coupling element has a docking bar, while the second coupling element has hooks extending from a vertical member. The hooks are designed to receive and secure the docking bar, ensuring a stable connection. The docking bar may include alignment features to guide the hooks into position, and the hooks may have a locking mechanism to prevent accidental disengagement. The system may also include sensors or indicators to confirm proper coupling. This design simplifies the connection process while maintaining structural integrity and safety. The invention is particularly useful in applications where frequent coupling and uncoupling are required, such as in towing or modular construction systems.
11. The system of claim 10, wherein each hook comprises an upper section comprising a planar portion extending at an angle relative to the vertical member and a lower section comprising a curved seat for pivotally receiving the docking bar.
This invention relates to a docking system for securing and stabilizing a portable device, such as a medical or industrial apparatus, to a support structure. The problem addressed is the need for a reliable, adjustable docking mechanism that ensures proper alignment and secure attachment while allowing for easy installation and removal. The system includes a vertical member fixed to a support structure and a docking bar that engages with hooks to secure the portable device. Each hook has an upper section with a planar portion angled relative to the vertical member, providing structural support and alignment guidance. The lower section features a curved seat that pivotally receives the docking bar, allowing for smooth engagement and adjustment while maintaining stability. The angled planar portion ensures proper positioning, while the curved seat facilitates rotational movement, enabling precise docking and secure retention. The design minimizes misalignment and enhances ease of use, making it suitable for applications requiring frequent attachment and detachment.
13. The method of claim 12, further comprising the step of actuating a conveyor forming a dynamic support surface on the drone to move a package into or out of the article containment area.
This invention relates to drone-based package delivery systems, specifically addressing the challenge of securely transporting and handling packages during flight. The system includes a drone equipped with an article containment area designed to hold packages during transport. The containment area is dynamically adjustable to accommodate different package sizes and shapes, ensuring stability and preventing damage. The drone further includes a conveyor system integrated into the containment area, which forms a dynamic support surface. This conveyor can be actuated to move packages into or out of the containment area, facilitating automated loading and unloading. The conveyor system may include rollers, belts, or other mechanisms to adjust the position of the package within the containment area, optimizing balance and flight stability. The invention improves the efficiency and reliability of drone-based delivery by automating package handling, reducing manual intervention, and enhancing the drone's ability to carry and release packages in various environments. The system is particularly useful for last-mile delivery applications where precise and automated package management is critical.
14. The method of claim 12, further comprising the step of actuating a conveyor in the shelf to move a package onto or from the drone.
This invention relates to automated package handling systems for drone-based delivery, addressing the challenge of efficiently transferring packages between drones and storage shelves. The system includes a shelf with a conveyor mechanism designed to facilitate the movement of packages. The conveyor can be actuated to either load a package onto a drone or unload a package from the drone. The shelf is equipped with sensors or other detection mechanisms to identify the presence and position of packages, ensuring precise alignment for transfer. The conveyor may be motorized or otherwise powered to adjust its position or orientation, allowing for seamless integration with drone docking systems. The system may also include alignment guides or locking mechanisms to secure packages during transfer, preventing displacement or damage. The invention improves the efficiency and reliability of drone-based delivery operations by automating the loading and unloading process, reducing manual intervention and potential errors. The conveyor's actuation is synchronized with drone operations, ensuring timely and accurate package transfers. This method enhances the scalability of drone delivery networks by streamlining logistics workflows.
15. The method of claim 12, further comprising the step of charging the drone while docked.
A system and method for managing drone operations involves a docking station that provides power, data connectivity, and environmental control for one or more drones. The docking station includes a charging mechanism to recharge the drone's battery while it is docked, ensuring continuous operation. The station also features a communication interface to transmit data between the drone and external systems, such as control centers or cloud networks. Environmental control systems within the station regulate temperature, humidity, and other conditions to protect the drone from adverse weather or storage conditions. The docking station may be stationary or mobile, allowing deployment in various locations. The method includes docking the drone, establishing a connection for data transfer, and initiating charging to maintain the drone's operational readiness. This system enhances drone efficiency by automating maintenance tasks and ensuring reliable power supply, reducing downtime and extending operational lifespan. The solution addresses challenges in drone logistics, particularly for applications requiring frequent use, such as surveillance, delivery, or inspection tasks.
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April 11, 2019
May 28, 2024
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